T
Thomas A. Haill
Researcher at Sandia National Laboratories
Publications - 56
Citations - 947
Thomas A. Haill is an academic researcher from Sandia National Laboratories. The author has contributed to research in topics: Z-pinch & Pulsed power. The author has an hindex of 12, co-authored 56 publications receiving 818 citations.
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Journal ArticleDOI
Pulsed-power-driven high energy density physics and inertial confinement fusion research
M. Keith Matzen,M. A. Sweeney,R. G. Adams,James R. Asay,James E. Bailey,Guy R. Bennett,David E. Bliss,D.D. Bloomquist,Thomas A. Brunner,R. B. Campbell,Gordon A. Chandler,Christine Anne Coverdale,M. E. Cuneo,J.-P. Davis,C. Deeney,Michael P. Desjarlais,G. L. Donovan,Christopher Joseph Garasi,Thomas A. Haill,C.A. Hall,David Lester Hanson,M. J. Hurst,Brent Manley Jones,Marcus D. Knudson,R. J. Leeper,Raymond W. Lemke,Michael G. Mazarakis,Dillon H. McDaniel,Thomas Alan Mehlhorn,Thomas J. Nash,Craig L. Olson,John L. Porter,Patrick K. Rambo,S.E. Rosenthal,Gregory Rochau,L. E. Ruggles,Chimpén Ruiz,T. W. L. Sanford,J. F. Seamen,D.B. Sinars,S. A. Slutz,Ian C. Smith,Kenneth W. Struve,William A. Stygar,Roger Alan Vesey,E.A. Weinbrecht,David Franklin Wenger,Edmund Yu +47 more
TL;DR: The Z accelerator at Sandia National Laboratories delivers ∼20MA load currents to create high magnetic fields (>1000T) and high pressures (megabar to gigabar) in a z-pinch configuration, the magnetic pressure supersonically implodes a plasma created from a cylindrical wire array, which at stagnation typically generates a plasma with energy densities of about 10MJ∕cm3 and temperatures >1keV at 0.1% of solid density as mentioned in this paper.
Journal ArticleDOI
Review of pulsed power-driven high energy density physics research on Z at Sandia
Daniel Sinars,M. A. Sweeney,C. S. Alexander,D. J. Ampleford,Tommy Ao,John P. Apruzese,C. Aragon,D. J. Armstrong,Kevin N. Austin,Thomas James Awe,Andrew Baczewski,James E. Bailey,Kevin Baker,C. R. Ball,H. T. Barclay,S. Beatty,Kris Beckwith,Kate Bell,J. F. Benage,Nichelle Bennett,Karen Blaha,David E. Bliss,J. J. Boerner,Christopher Jay Bourdon,B. A. Branch,Justin Brown,E.M. Campbell,R. B. Campbell,D. G. Chacon,Gordon A. Chandler,K. Chandler,P. J. Christenson,M. D. Christison,E. B. Christner,Raymond C. Clay,Kyle Robert Cochrane,Anthony P. Colombo,B. M. Cook,Christine Anne Coverdale,M. E. Cuneo,J. S. Custer,Arati Dasgupta,J.-P. Davis,Michael P. Desjarlais,Daniel H. Dolan,J. D. Douglass,G. S. Dunham,Sakun Duwal,Aaron Edens,M. J. Edwards,Evstati Evstatiev,Bernardo Farfan,J. R. Fein,Ella Suzanne Field,J. A. Fisher,Timothy McGuire Flanagan,Dawn G. Flicker,M. D. Furnish,Benjamin R. Galloway,P. Gard,T. A. Gardiner,Matthias Geissel,John Giuliani,Michael E. Glinsky,M. R. Gomez,T. Gomez,Gary Grim,Kelly Hahn,Thomas A. Haill,N. D. Hamlin,J. H. Hammer,Stephanie Hansen,H. L. Hanshaw,Eric Harding,A. J. Harvey-Thompson,D. Headley,Mark Herrmann,M. H. Hess,C. Highstrete,Omar Hurricane,Brian Hutsel,Christopher Jennings,O. Johns,Drew Johnson,Mark D. Johnston,Brent Manley Jones,M. C. Jones,P. A. Jones,P. Kalita,R. J. Kamm,J. W. Kellogg,Mark L. Kiefer,Mark Kimmel,Patrick Knapp,Marcus D. Knudson,A. Kreft,George Laity,P. W. Lake,Derek C. Lamppa,W. L. Langston,J. S. Lash,K. R. LeChien,K. R. LeChien,Joshua J. Leckbee,R. J. Leeper,G. T. Leifeste,Raymond W. Lemke,William Lewis,S. A. Lewis,G. Loisel,Quinn Looker,A. J. Lopez,D. J. Lucero,Steve MacLaren,Rudolph J. Magyar,Michael A. Mangan,Matthew Martin,Thomas R. Mattsson,Maurice Keith Matzen,A. J. Maurer,Michael G. Mazarakis,Ryan D. McBride,Harry McLean,C. A. McCoy,G. R. McKee,John Lee McKenney,A. R. Miles,J. A. Mills,M. D. Mitchell,Nathan W. Moore,Clayton E. Myers,Taisuke Nagayama,G. Natoni,A. C. Owen,S. G. Patel,Kyle Peterson,Timothy D. Pointon,John L. Porter,Andrew Porwitzky,S. Radovich,Kumar Raman,Patrick K. Rambo,William D. Reinhart,G. K. Robertson,Gregory Rochau,Seth Root,D. V. Rose,Dean C. Rovang,Carlos L. Ruiz,Daniel Ruiz,D. Sandoval,Mark E. Savage,M. E. Sceiford,M. A. Schaeuble,Paul Schmit,Marius Schollmeier,Jens Schwarz,Christopher T Seagle,Adam B Sefkow,David B. Seidel,G. A. Shipley,Jonathon Shores,Luke Shulenburger,Sean Simpson,S. A. Slutz,Ian C. Smith,C. S. Speas,P. E. Specht,M. J. Speir,D. Spencer,P. T. Springer,A. M. Steiner,Brian Stoltzfus,William A. Stygar,J. Ward Thornhill,Jose A. Torres,Joshua P. Townsend,C. Tyler,Roger Alan Vesey,P. E. Wakeland,Timothy J. Webb,E. A. Weinbrecht,M. R. Weis,Dale Welch,Jack LeRoy Wise,M. Wu,David Yager-Elorriaga,A. Yu,Edmund Yu +188 more
TL;DR: The 80-TW "Z" pulsed power facility at Sandia National Laboratories as discussed by the authors is the largest pulsed-power device in the world today, and it can discharge up to 22'MJ of energy stored in its capacitor banks into a current pulse that rises in 100'ns and peaks at a current as high as 30 MA in low-inductance cylindrical targets.
Characterization of magnetically accelerated flyer plates.
Marcus D. Knudson,Thomas A. Haill,Thomas Alan Mehlhorn,Michael P. Desjarlais,Raymond W. Lemke,Charles Ainsley Hall,James R. Asay +6 more
TL;DR: Spielman et al. as mentioned in this paper used one-dimensional magnetohydrodynamic (MHD) simulation to elucidate details of the magnetically accelerated flyer dynamics, and compared the simulation results with time-resolved measurements of velocity from a shock loading experiment involving a 925 μm aluminum flyer.
Journal ArticleDOI
Characterization of magnetically accelerated flyer plates
Raymond W. Lemke,Marcus D. Knudson,C.A. Hall,Thomas A. Haill,P. M. Desjarlais,James R. Asay,Thomas Alan Mehlhorn +6 more
TL;DR: Spielman et al. as mentioned in this paper used one-dimensional magnetohydrodynamic (MHD) simulation to elucidate details of the magnetically accelerated flyer dynamics, and compared the simulation results with time-resolved measurements of velocity from a shock loading experiment involving a 925 μm aluminum flyer.
Journal ArticleDOI
Self-consistent, two-dimensional, magnetohydrodynamic simulations of magnetically driven flyer plates
Raymond W. Lemke,Marcus D. Knudson,Allen C. Robinson,Thomas A. Haill,Kenneth W. Struve,James R. Asay,Thomas Alan Mehlhorn +6 more
TL;DR: Spman et al. as mentioned in this paper used two-dimensional (2D) magnetohydrodynamic (MHD) simulation to investigate the physics of accelerating flyer plates using multi-megabar magnetic drive pressures.